Coin-handling apparatus



R. F. BRQUSSARD 2,633,960

COIN-HANDLING APPARATUS A ril 7, 1953 6 Sheets-Sheet 1 Filed Jan. 14, 1948 zza 28 INVENTOR.

fiabertfi' Broussard BY t April 7, 1953 F. BROUSSARD 2,633,960

COIN-HANDLING APPARATUS Filed Jan. 14, 1948 6 Sheets-Sheet 2 26 INVENTOR.

I Ebbert]? Broussard A y w vzm 4 5 Attor gs April 7, 1953 R. F. BRoussARb COIN-HANDLING APPARATUS Filed Jan. 14, 194B 6 Sheets-Sheet I5 I N V EN TOR. Robmfi'firoussara .14 ttorngjs April 7, 1953 R. F. BRoussARD COIN-HANDLING APPARATUS 6 Sheets-Sheet 4 Filed Jan. 14, 1948 INVENTOR. Robert E Brozzssard Ara-on: gas

Ap 1953 R. F. BROUSSARD 2,633,960

COIN-HANDLING APPARATUS Filed Jan. 14, 1948 6 Sheets-Sheet 5 INVENTOR.

RobertFBraussard r .Attorn s April 7,1953 R. F. BROUSSARD COiEN-HANDLING APPARATUS 6 Sheets-Sheet 6 Filed Jan. 14, 1948 IN V EN TOR. Robert fi'firazlssard 4 Patented Apr. 7, 1953 COIN-HANDLING APPARATUS Robert F. Broussard, Houston, Tex., assignor to Duncan Parking Meter Corporation, Chicago, 111., a corporation of Illinois Application January 14, 1948, Serial No. 2,263

This invention relates to a coin-controlled apparatus, and especially to a coin-controlled apparatus such as a parking meter.

The primary object of my invention is to provide a coin-controlled timing apparatus capable of being energized and set for operation solely in response to insertion of one or more coins of prescribed denomination.

Parking meters have heretofore been devised which are capable of being set for operation for a predetermined period solely in response to insertion of a coin; but such devices have involved the use of spring power which has required rewinding from time to time by service employees, or have involved the use of electricity as a source of energy. An example of ,a prior apparatus wherein power springs are employed requiring winding from time to time by a service employee is the so-called automatic parking meter disclosed in the Toce et al. Patent No. 2,340,441, dated February 1, 1944; and an example of a meter wherein the operating energy is electrical so as to require connection to an electrical supply line is disclosed in the Toce et a1. Patent No. 2,340,442, dated February 1, 1944. There is an obvious disadvantage in the constantneed for recurrent rewinding, not only because of the service cost involved, but, what is more important, because of the likelihood of service men neglecting to wind the springs, thus allowing the meters to run down and become temporarily inoperative. Moreover, the cost of a heavy power spring and the ancillary mechanical parts which go with it are major factors in the over-all cost of a meter of that type. While an electrically powered meter is less costly to manufacture and operate, its installation involves the laying of power supply lines which ordinarily entails a costly street opening operation, and for that reason has not met with much acceptance.

There are various prior art parking meters which do not require periodic re-winding by serv ice employees, and do not involve the use of electrical energy; but parking meters of the latter description do involve atwo-stage manual operation which comprises, first, the insertion of a coin and, second, the turning of a handle or some equivalent manual action. A few examples of meters of the last-mentioned class are those disclosed in Letters Patents No., 2,311,242, dated February 16, 1943; No. 2,416,213, dated February 18, 1947; and No. 2,262,783, dated November 18, 1941. Meters of this category are generally satisfactoryoperationally, but have an innate deficiency in that their two-stage mode of opera- 20 Claims. (01. 194-72) tion is too complicated for certain patrons who either cannot read or understand instructions, or who do not have the capacity to cope with anything of a mechanical nature. Ordinarily,

such persons have no great difficulty with the first stage of the operation which involves merely the insertion of a coin in the slot; but the subsequent turning of a knob or pulling of a lever has oftentimes resulted in failure of the meter to operate due to any one of a number of causes such, for example, as improper or inadequate manipulation of the lever or knob whereby the coin mechanism is put out of order or completely wrecked.

The parking meter herein described as an exemplification of my invention requires no periodic re-winding by service employees, does not make.

use of electrical power, and involves, on the part of the user, merely the insertion of a coin in the entry slit therefor.

Preferably, but not necessarily, the meter'is designed to receive coins or tokens of two different denominations which are herein referred to as major and. minor coins. The suggested examples of coins to be used are nickels and pennies. The meter may be adjusted to afford one hour of parking time for a nickel (the major coin) and a proportionately shorter period for a penny (the minor coin). It will be understood as a matter of course that the meter can be designed to operate with coins of various denominations.

An important feature of this invention consists in the provision of what may appropriately be termed primary and secondary springs, respectively. In the operation of the apparatus the manually exerted force which accompanies insertion of a coin into the coin-receiving slit is utilized to energize the primary spring which is thereby conditioned to set the meter for operation in accordance with the value of the coin deposited, and at the same time energize the secondary spring which serves to drive the timing mechanism. While itmight be possible to energize the secondary springdirectly, i. e., without interposition of the primary spring, it is essential to provide for setting the meter in response to a coin and also to prevent fraudulent opera' time operating the cain collection mechanism.

Various arrangements within the scope of this invention, including the one herein described, can be devised for setting and energizing the timing mechanism while at the same time preventing fraudulent operation thereof, but the factor which makes this possible while still achieving the. objective of a meter which is actuated solely in response to insertionof a coin (and which entails no periodic winding and no energization other than that which is incidentto the insertion of a coin) is the primary or power spring which, as previously stated, is en ergized by manual force and subsequently utilized as the power source for operating the. meter. It is in fact the primary or power spring of the meter herein disclosed that makes it possible to eliminate the second-stage manual" operation which characterizes one category of parking meters, 1. e., those which are energized by the patrons as distinguished from those of another category wherein one or more power springs require periodic winding by a service attendant.

Another object of my invention is to provide a meter mechanism of the utmost reliability and yet capable of being manufactured economically. Still another object is to provide a meter mechanism-which can be taken apart and reassembled without difiicult'y, thus greatly facilitatingv such servicing operations as may be necessary. A further object is to provide a parking meter which is adapted for operation by coins or tokens of more than one value, and wherein the mechanism which is selectively responsive to the size of the coinor token is both simple and reliable inoperation;

These and other objects and advantages may be realized from my invention, a suggestive embodiment whereof is illustrated in the accompanying drawings in the manner following:

Figure 1 is a view in elevation of the front plate forming part of the framework for the operating mechanism Fig. 2 is an elevational view of one open side of the framework;

Fig. 3 is a central vertical section through the framework and the operating mechanism carried thereby, takenon line 3--3 of Fig. 4;

Fig. 4 is a vertical section through the operating mechanism, taken on line 44 of Fig. 3;

Fig. 5 is a similar view, taken on line 55 of Fig. 3;

Figs. 6-10, which are sectional views taken in the plane of line --4 of Fig. 3, show the operating mechanism in five successive stages of its cycle;

Fig. 11 is a detail, partly in elevation and partly in section, of the governor for controlling movement ofthe time indicator finger across the dial;

Fig. 12 is an exploded perspective view of the coupling which I employ for transmitting rotary motion from the main shaft to the governor;

Fig. 13 is a fragmentary detail in elevation, looking toward one side of the time control plate and indicator ratchetwheel, taken about on line I3l3 of. Fig. 3;

Fig; 14 is a similar view, taken about on line I l-l4 of Fig. 2;

Fig. 15 is a detail in perspective of the coin carrier looking toward one side thereof;

Fig. 16 is a similar view looking toward the opposite side of the coin carrier;

Fig. 1'7 is a view in elevation of the gear train leading to the fly wheel;

Fig. 18 is a detail in section, taken centrally through the coin usher plate, showing certain of the operating parts adjacent thereto;

Fig. 19 is a detail, mostly in elevation, looking toward the framework front plate and the coin usher plate adjacent thereto;

Figs. 20 and 21 are somewhat diagrammatic views showing in elevation the coin carrier and associated parts in two successive positions during operation in responseto a major coin;

Figs. 22-24 are similar views showing three successive positions during operation in response to a minor coin; and

Fig. 25', which is a similar view, shows the parts associated with the coin carrier in a neutral position. as when attempt is made to operate with no coin or with one which is smaller than the minor coin for which the mechanism is designed.

The mechanism shown and described herein is one designed for operation in response to deposit of coins of either of two denominationsa penny and a nickel, for example. It will be convenient in describing the operation of the machine to refer to the larger of any two coins as major and to the smaller one as minor, with theunderstanding that these terms designate any two coins which are made regularly in two different diameters. Also the unit of time for which the machine is designed will be referred to as one hour,,as this is a convenient and common period of operation for parking meters. Again, it is to-be understood that an hour is an arbitrary unit of time and may, in any given installation, be longer or shorter according to the time period for which the mechanism is designed to operate.

The operating mechanism is contained within a framework with which it forms a unitary structure capable of being installed within a suitable housing. Such a housing forms no part of this invention. The mechanism may be used with greatest advantage when installed within a housing having a removable head, but since this feature per se is not part of my invention, it is neither shown nor described.

The machine framework The framework of the present mechanism comprises by preference a front plate A, a middle plate B, and a back plate C, each vertically disposed. These plates are interconnected by pillars at the tops and bottoms and also by intermediate pillars, the construction of all of them being desirably the same. As shown in Fig. 3, each pillar comprises a dowel pin 25 which extends through aligned openings in the several. plates, the pin having a head 26 at one end and being formed at its opposite end with a threaded socket to receive the shank 2'! of a screw whose head 28 engages the outer face of the front plate or back plate, as the case may be. Betweenv the several plates traversed by each pin are spacer sleeves 30, each having the requisite length for spacing the middle plate the desired distance from the front and back plates. Other intermediate plates such as a chute plate D forming a closure for a chute wall 32, a stop plate E, and a bearing plate F are also traversed by one or more of the dowel pins, and in each such case additional spacer sleeves 39 of requisite length are used to maintain these intermediate plates spaced apart in fixed predetermined positions.

The front and back plates extend from top to bottom of the framework, the remaining plates being of lesser length. By the use of six pillars, two at the top, two at the bottom, and two others at intermediate points, all the vertical supporting plates of theframework are interconnected to provide a rigid structure.

The power mechanism A novel feature of this invention is the power mechanism by which the time indicator is moved continuously through its movement cycle, say one hour. This mechanism comprises a primary power spring which is placed under tension in response to insertion of a coin into the machine. Pressure applied to the coin as it is introduced into the receiving slit is transmitted through certain operating parts to tension the power spring as an intermediate step in the setting of the time indicator. The word tension as used herein is relative, since the primary power spring remains alwaysunder tension to some extent; it refers rather to an increase of such tension to a point such that, when the stored energy is released, it will set the time indicator for a predetermined operating period and concurrently energize a secondary spring which functions to return the time indicator to the zero or starting position, subject to the restraint of a timing mechanism.

In any discussion of the power mechanism it is necessary to include a detailed description of the coin handling devices which will be considered at this point. The coin mechanism comprises an usher plate 33, desirably concave on both front and rear faces, and provided therethrough with a coin entry slit 34 (see Fig. 18) which is bounded by walls of substantial thickness to provide an adequate guide for a coin placed therein. The guide wall at the bottom of the entry slit is further slotted at 35 for a purpose which will later appear. Extending from the top of the plate usher are two ears 36 formed with registering holes for reception of the dowel pin 25 comprised in the pillar directly above. A duplex spring 31 is coiled around the pillar to engage at an intermediate point with the stop plate E therebetween, the opposite springs ends being engaged with the rear of the usher plate to maintain the latter yieldable in an outward position which is determined by engagement of a stop lug 38 carried thereby for limited movement within an opening 39 formed in the front plate A (see Figs. 1 and 19). Engagement of the stop lug 38 with the opposite end of the opening 39 also determines the innermost position of the usher plate.

The usher plate 33 stands immediately forwardly of a coin carrier G (see Figs. and 16) which is mounted to rotate upon a sleeve 43 carried by the main shaft H of the machine. This shaft is surrounded at one end by a sleeve 43 having a shoulder 44 which abuts the inner face of the front plate A. The opposite end portion of the shaft, as shown, is built up to provide an enlarged cylinder 45 at one end of which is a flange 46 of increased diameter adjacent a shoulder 41 of lesser diameter which extends out from a second cylinder 43 whose end faces the proximate face of the middle plate B. Beyond this point the shaft continues at 593 through on opening in the middle plate which provides a bearing therefor. Such a longitudinal contour for the shaft is permissible, but obviously may be varied somewhat. The outer end of the sleeve 43 is journaled for rotation in the front plate A and the shaft H 15 also free to rotate within the sleeve bearing thus ro ided. p The sleeve 40 which adjoins the sleeve 43 is formed with a head 52 at its inner end ad acent the cylinder 45. The sleeve 40 is extendd through an opening 54 near one end of the coin carrier G.

At the opposite end of the coin carrier is a coinreceiving slot 55 which confronts the coin entry slit 34 in the usher plate 33, but in spaced relation thereto. Normally the usher plate stands away from the carrier (see Fig. 4), but in response to manual pressure accompanying passage of a coin through its slit 34 the plate advances much closer to the carrier so as to reduce the intervening gap. The guiding function of the walls which bound the slit 34 is important as the coin supported therein is thereby accurately positioned for transfer into the receiving slot 55 of the coin carrier.

At a point relatively close to the'top of the framework is a shaft 5'! (see Figs. 4, 9, and 10) carried between the front. plate A and the stop plate E. This shaft furnishes a pivotal support for a segmental gear plate 58 and also for a primary power arm 59 which is arranged adjacent thereto with a laterally turned lug 60 engaging one edge thereof. The free end of the arm 59 is provided with a laterally turned finger 61 which normally lies in front of the receiving slot 55 in the coin carrier G. The wall of the coin carrier on one side of the coin-receiving slot 55 is channeled to provide a generally radial slot 82 (see Figs. 15 and. 16) connecting with an arcuate lateral slot 63. advance into the radial slot (i2 first inwardly and then angularly and outwardly through the lateral slot 63 so as to be clear of the coin carrier G when next operated (see Fig. 9). Movement is imparted to the primary power arm and thence to the finger 6! by a major or minor coin L or S, as the case may be, when inserted through the entry slit 34 of the usher plate 33 in the manner hereinafter to be described.

Upon the coin carrier wall opposite the one which is traversed by the radial slot 52 (see Fig. 15) is secured a coin selector hand 65 with the aid of a pivot screw 66. This hand sometimes hereinafter referred to as a coin gauge is provided with an inwardly turned finger 6! which traverses an arcuate slot 58 in the wall of the coin carrier so as to project within the coin receiving slot 55. In addition, the hand 35 is formed with an outwardly extended finger 69 adapted to be engaged by a part of the timing mechanism which will be described hereinafter at a later point.

The finger 6! on the primary power arm 59 stands behind the coin entry slit 34 of the usher plate so as to engage each coin as it is introduced into the machine (see Fig. 18). When this finger is retracted in response to pressure transmitted by the entering coin, the primary power arm 59 is swung back to oscillate with it the segmental gear plate 58 about its pivotal axis 51. The arcuate edge of the plate 58 is provided with gear teeth H in mesh with complementary gear teeth on the rounded end 73 of a secondary power arm 14 which is mounted for rotation freely about the sleeve 43 adjacent its shoulder 44. Normally the secondary power arm 14 depends downwardly and laterally in response to tension of a spring presently to be described. Near its free end the secondary power arm carries a latch 16 pivoted at IT and acted upon by a spring 18 (see Fig. 18) to swing its tail end 19 normally against an adjustable screw carried in a stationary post 8| (see Fig. 4). The latch tail is normally held in engagement with a stop pin.82 carried by the secondary power arm 14 from which it is free to swing through a limited arc toward a second stop pin 83 also mounted on The lateral finger 6| may.

aesaeco.

the: secondary power arm, but only when the latter has moved away from its normal inactive position shown in Fig. 4 The adjustable screw 89- which is extended transversely through the post 81 serves, by its engagement with the latch tail 19-, to determine the stopping point for the secondary power arm hi in one extreme position thereof; it also determines the rotative position at which the coin carrier is released for return to its-normal position, as will later be explained.

A. coiled spring. 85 referred to-herein at the primary' power: spring exerts its force through the secondary power arm to condition the timing mechanism for operation. One end of this spring is secured to the arm T4 at 88 for Winding upon a hub thereof, and at its other end is connected to a post Bl which is affixed to the stop plate E (see Figs. 2 and 3). By such an arrangement the power spring 85 is wound upon the hub when the secondary power arm T4 is rotated counter-clockwise from the position of Fig. 4 to that of Fig. 18, so as to maintain the primary power arm 59 in an inner position where its finger 8i is positioned just rearwardly of the entry slit 34 in the coin usher plate 33.

When a coin, either major or minor, is pushed through the entry slit 34, the usher plate 33 may, in practice, be pushed inwardly with it. This is true always when a minor coin is advanced into the machine. In this advancing movement of the coin the primary power arm 59 will also be swung inwardly to clear the way for further coin movement into the receiving slot 55 of the coin carrier G (see Figs. 4 and 18). This inward movement of the primary power arm. causes the secondary power arm Hi to swing oppositely, thereby stretching the primary power spring 85 to a condition of increased tension (see Figs. 6 and 18). The swinging movement of the secondary power arm continues to the point at which its latch it engages with a pin. 88 which is extended. laterally from the coin carrier G. Upon reaching this limit position the latch 16 will hook over the pin 88 so that, upon the return stroke, the coin carrier'will also rotate with it, in a clockwise direction as viewed in Figs. 4-10, through about 90, in response to tension of the primary power spring 85. In this operation the two power arms serve as a motion-transmitting connection from the actuating coin to the carrier in which it is received. The coin retained within the receiving slot 55 of the carrier G will be moved therewith and through the guide slot 35 into an aligned, downwardly inclined, arcuate track 89 through which it travels for gravity release into a vertical center chute 90 that is provided in the wall 32. The lower right hand side of this chute, as viewed in Fig. 4, terminates in a corner 9! below which it is widened for a purpose which will hereinafter appear.

Mounted fast on the head 52 of the sleeve 45 is a main fly gear 93. This gear meshes with the pinion 95 on a shaft 95 constituting part of a fly train. Opposite ends of this shaft are formed with trunnions 9t journaled within bearing openings in the stop plate E and back plate C. A fiy train (see Fig. 17) comprising a gear as mounted on the shaft 95 is in train with other gears Hid, mi, and N12 to drive a fly wheel I83. A light tension spring I55 is coiled around the shaft 9% at its end which is proximate to the back plate C. This spring bears with pressure at opposite ends against the gear 99 and also against a collar I56 which is fixedly carried on the fly train shaft at so: as to. act as a brake in preventing overrunning of. the-fly train.

The main fly gear 93 which may be of segmental form is connected operatively with the coin carrier G- by a pin Iii! which is positioned within an elongated notch 168 formed in the carrier at its end proximate to the hole 54 (see Figs. 5, 9 and 15). Due to the length of the notch I38, the pin is free to move between its two ends, perhaps 10, whereby a certain lost motion is attained. With each operation of the coin carrier the fly wheel train is set in motion to oscillate between limits one of which is fixed by a stud 94, carried by the gear 93, when engaged with one end of an arcuate slot [04 in the plate E. This motion ends when the coin has reached its position of rest as will hereinafter be noted. The purpose of the fly wheel train is to control the speed of movement of the parts which are actuated by passage of the coin into the machine to its position of rest.

Operation of the primary and secondary power arms 59 and 74, respectively, results in the latch 76 hooking over the coin carrier pin 88, as already noted. At this point the secondary power arm M is ready to swing back to its normal position in response totension exerted by the primary power spring 85. In this return movement the latch 16 rotates the coin carrier through a distance of about 90, but against the light tension of a coiled return spring H?! which extends from an anchorage upon the chute wall 32 to wind upon the periphery of the carrier where it is secured by a pin iii. A second tension spring H2 is extended from the same pin Hi to an outset corner of the coin gauge 65, whereby the gauge is normally maintained in the position shown in Fig. 15 with its inturned finger 67 at the outer end of the arcuate slot 68.

From the description up to this point it will be observed that from their normal positions shown in Figs, 4 and 10 the two power arms are swung oppositely to the positions of Figs. 9 and I8 where (a) the finger 6| has advanced close to the inner end of the coin carrier slot @2- and (b) the latch 75 has engaged the coin carrier pin 88, the primary power spring being tensioned during this movement; and that from the advanced position where there is no longer any pressure on the coin, the primary power spring 85 then returns the two power arms to their original positions, but with the coin carrier executing .a 1'0- tary movement due to pulling engagement of the latch l8 with the pin 88. The finger 6| does not impede this downward movement of the carrier since it then lies within the lateral slot 63 so as to emerge therefrom before the conclusion of the movement (see Fig. '7) to a position where it is free to swing outwardly to another position 0pposite the coin receiving slot 55 when the carrier has completed its cycle of movement (see Fig. 4) During the initial stroke of the power arms the spring 13 rocks the latch 76 so that its tail l9 approaches the stop 83 in preparation for hooking with the carrier pin 88; at the end of the return stroke (see Fig. 7) the latch is tripped by engagement of its tail with the adjustable stop 85, the coin carrier being thereby freed for return to its initial position in response to tension of its spring H6.

While the coin carrier is executing its down movement, the spring-actuated coin gauge 55 maintains a pressure on the coin S or L, as the case may be, tending to hold the same within the track 89. The coin which is advanced down- 9 wardly through the track in response to a. like movement of the carrier is freed for disengagement therefrom only when the coin has passed beyond the track end at the top of the center chute 90. At this point the coin enters the chute for gravity descent therethrough, but at the start of its down movement assistance is rendered by the spring I I2 acting through the coin gauge 65. The coin thus transferred to the chute entrance is accordingly discharged with rapidity The timing mechanism A generally circular time control plate I I5 (see Figs. 13 and 14) is mounted for rotation upon a sleeve I I6 which surrounds the shaft cylinder 45 (see Fig.3). This plate is formed with an arcuate slot I I8 concentric with the axis of the shaft H about which it is free to rotate. The time control plate lies adjacent an indicator ratchet wheel I I9 which is mounted fast upon the sleeve H6 adjacent a collar I28 which extends outwardly therefrom. The indicator ratchet wheel H9 also carries on its side opposite the time control plate a segmental pulley I22 which may be secured thereto by suitable rivets or pins I23. A screw provided with a threaded shank I24 is secured to the ratchet wheel pulley, the screw shank extending through the ratchet wheel'to lie within the arcuate slot H8 of the time control plate H5 whereby to lock one to the other and in so doingto limit the rotative movement of one relative to the other through a predetermined distance. The head I25 of the screw serves also to hold the time control plate H5 against separation from the indicator ratchet wheel H9.

Extending radially from the indicator ratchet wheel H9 is a finger I-2I which rises to an upper position where it lies adjacent an arcuate dial plate I28 whose opposite ends are inturned and pierced to receive therethroughthe dowel pins 25 comprised in the two top pillars of the framework. This dial plate extends through a distance of perhaps 60, and the movement range of the indicator finger is such that it may traverse the full length ofthe dial which is desirably marked to indicate fractional periods of the hour when the mechanism is to operate for a period of that length. The top end of the indicator finger may be pointed'and also attractively colored to enhance its distinctiveness.

Carried by the segmental pulley I22 is a plurality of pawls I32 each pivoted at I33 and receiving pressure from a spring I34 so that its acting end is maintained yieldably against the toothed periphery I35 of a ratchet wheel I36 which is mounted fast on the shaft shoulder 41. As shown, three such pawls are provided to reduce back lash to a negligible point and enhance their positive action with the ratchet wheel. A coiled indicator spring I39 of considerable length has oneend connected at I40 to the pulley I22 and its other end fastened, as by a hook I4I, to

one of the lower pillars of the framework (see Fig. 5). The spring I39 is also a secondary spring because it receives its energization from the primary power spring, and will be sometimes hereinafter so referred-to. By the means described, the indicator or secondary spring I39 will tend to move the segmental pulley rotatively in one direction, thereby imparting'through the 10 pawls I32 alike rotative movement to' the ratchet wheel I36 to drive the shaft H. In this operation the indicator finger I21 is also moved through its prescribed arc across the dial plate I28 and the time markings thereon.

The extent of rotative movement of the indicator ratchet wheel II9 is determined by its rotative adjustment relative to the time control plate H5. A pointer I42 on the time control plate is positioned adjacent a set of calibrations I43 whereby to assist in the desired setting. As shown in Fig. 13, this pointer is opposite one end of the calibration marks, this being the position for operation of the indicator ratchet wheel H9 to swing the finger I2'I fully across the dial, i. e;, sixty minutes in a meter which is designed for one-hour operation. If

' the time is to be cut down, say to thirty minutes,

then the time control plate H5 will be set to another position in' which its pointer I42 will lie ina midway position lengthwise of the calibration marks. I

At a position opposite the arcuate slot H8 the time control plate is formed with a radial shoulder I45 which lies in the path of a lug I46 that is laterally extended from a counter trip arm I4'I which is operated only in response to passage of a major coin L. This counter trip arm is mounted for free rotation upon the sleeve H6 adjacent its collar I20. Ifhe lug I45 is free to move within an arcuate slot I49 formed in the indicator ratchet wheel H9. Manifestly by changing the position of the radial shoulder I45 through rotative adjustment of the time control plate H5, as already noted, the point of engagement of the lug I46 with the shoulder I45 may be changed and, by means hereinafter to be described, such an adjustment will affect the starting' position of the indicator finger I21 and thereby determine the extent of its movement across the dial plate I28, or in other words the time period for which the meter will then operate.

The power mechanism communicates motion to the timing mechanism through the coin selector hand finger 69 which engages the lug I46 on the counter trip arm I41 which normally lies against the shoulder I45. The force of the primary power spring 85 is such as to overbalance that of the indicator or secondary spring I39, thereby causing the time control plate I I5 to rot-ate clockwise from the position of Fig. 13. The distance of this movement is determined by the rotative adjustment of the ratchet wheel H9 relative to the control plate H5. There is accordingly provided a motion-transmitting means between the carrier and the indicator finger such that, in response to actuation by a coin, operation of the timing mechanism is initiated. It will be seen that the lug I45 which forms an integral part of the arm I47 is designed to be engaged by the finger 69 (Fig. 15) of the coin gauge 65 when the latter is rotated away from its normal position (Fig. 15) to an alternate position determined by the presence of a major coin in the coin carrier. When a minor coin is in the coin' carrier, its smaller diameter is such as not to displace the coin gauge 65 sufiiciently to bring the finger 69 into alignmentwith the lug I45. When themeter is operated by a minor coin the arm I41 is not rotated from its normal position. Deposit'ofa major coin L will assure operation for a one-hour period. If two such coins be deposited in succession, both will be registered in thecounter which will presently be described,

but the motorist will gainno benefit from the excess coin. If more than five minor coins be introduced in succession, the excess will also be registered by the counter, but will not accomplish anything beneficial for the motorist since movement of the indicator finger I27 is limited to 60 minutes as a maximum, as hereinbefore noted.

A signal arm II'is pivotally mounted on the dowel pin 25 of one of the top'pi-llars so as to display immediately below the dial plate I28 a flag I52 which may be colored or distinctively marked. The raised or display position of this flag is indicated in Figs. 1, 4 et al. The signal arm I 5I is of bell crank form (see Fig. in that it comprises an upwardly extending tail end that carries a lateral pin I53 which lies in the path of the indicator finger I27 as it approaches the zero position on the dial (see Fig. 4-). Movements of the signal into andout of display position are controlled by the indicator finger, andnothing else. When the machine is first operated to advance the indicator finger to a predetermined position on the dial (depending upon the coin or coins deposited for the purpose), the indicator arm I 27 will swing-away from the'pin I53 on the signal arm I5I to free the latter for gravity descent to a down position against'a stop pin 1 54 where it remains relatively obscured :(see Fig. 10). As the indicator finger approaches the end of its swinging movement across the dial, close to the zero position, it will =re-engage the pin I53 at the tail end of the signal arm to produce a pivotal movement thereof along with the indicator finger, thereby raising the flag once more to exposed position where it is held until initiation of the next operating cycle-of the machine.

At the end of the shaft H, one end of which is journaled in the middle plate B, is affixed a coupling comprising a mechanism plate I55 (see Figs. 3 and 12) which is secured fast on the shaft end as by an axial screw I56; and :a center plate I57 and a brake plate I58, the latter carryingan axially extended stub shaft I60 which enters into a housing I6I wherein is accommodated a governor or brake mechanism. The imechanism plate I55 is provided at diametrically opposite points with lugs l63offset into a common plane, each adapted to engage within aper-ipheral notch I54 which is formed oppositely in the center plate I57. In between the notches I64 are other similar notches I65 to receive lugs I66 lying in a common plane offset from the brake plate I58. Such a coupling is effective for transmitting rotary motion from the shaft H to the stub shaft I65, irrespective of whether or not the two shafts be perfectly aligned. This is a feature of advantage since it then becomes unimportant whether the two shafts be in exact axial alignment when the coupling is used for transmission of rotary motion to the brake mechanism which is contained within the housing I6I 7 Referring now to Fig. 11, the brake mechanism may comprise a gear I68 fast with the stub'shaft Mid, and in train with other gears I69, I70, and I7! each in mesh with a small pinion that is car-- ried coaxially by the next gear in the train which ends with an oscillatible escapement wheel I72 having a pair of spaced pins a and b in coacting relation with the gear I7I whereby to'control rotation thereof. By some such means as this I providea controlled release for the power exerted by the spring I39 whereby to operate the timing mechanism continuously and accurately for the full cyclic period. The governor thus 12 provided is a separate unit contained within the housing 'I5I which, as shown in Fig. 3, maybe formed with a flange I72 adapted to rest against the outer face of the back plate C when received within an opening therethrough and secured releasably thereto as by means of screws I73.

Operation of the coin mechanism A major coin L advanced by the carrier G into the center chute 98 will cause operation of certain mechanism, whereas if it be a minor coin S certain other mechanism will be operated. The ensuing description will deal first with operation induced by a major coin and later with the operation that is induced by a minor coin.

First, the major coin operation-As the coin carrier swings downwardly to advance a major coin L on its way, the counter trip arm I47 for the major coin undergoes a corresponding motion. From this arm is extended a hand I76 (see Fig. 14) adapted to engage a finger I77 which is laterally turned from an arm I 78 which is projected outwardly from a release-trip in the form of a disc I79 mounted to rotate about a pivot we (see Fig. 6). The periphery of this disc is formed with teeth I81 extending through a desired distance for engagement with a pinion I82 that is affixed to the operating shaft I83 of a counter mechanism I84.

The release-trip disc I79 carries a fixed arm 585 having a laterally turned finger I 87 which is movable through an arcuate slot I88 provided in the chute wall 32 (see Fig. 4). In the normal position of rest, this finger I87 lies near the top of the arcuate slot I88 spaced away (see Fig. 4) a maximum distance from a medially ,positioned abutment Hit which extends into the chute from the plate D at a point below the center from which the arcuate slot I88 is described. An entering coin is free to fall between the finger I 87 and the abutment I96 to rest against a finger-stop I92 which is extended laterally from a third arm I93 projecting outwardly from the release-trip disc I 79 (see Fig. 7). In normal operation of the machine there will usually be a coin resting near the bottom on the finger I 92 which constitutes a retractible stop, so that a succeeding coin deposited in the machine fo'r its next operation may be utilized to effect a discharge into a coin box (not shown) of the previously placed coin.

If the machine be clear, the first major coin deposited therein will pass into the vertical chute 96 where it initially encounters the release-trip disc I79 then positioned somewhat as shown in Fig. 8. The space between the finger I87 and the abutment Isl. is momentarily insufficient for the coin to pass therebetween. In the succeeding stages of movement of the release-trip disc I79 theposition of Fig. 6 will first be reached where the coin is released to drop down the short distance required to engage and .be held by the finger-stop I92 when moved .to the left. In a subsequent operation the release-trip disc is oppositely moved to swing the holding fingerstop I92 to the right (see Fig. '7) whereby to release the coin for gravity descent into the money box (not shown). After this takes place, the release-trip disc will again 'be rotated back to its normal position, whereupon the distance of separation between the finger I87 and the abutment I96 is enlarged sufficiently to permit the next succeeding coin to drop down to a :po sition of rest against the finger-stop I32, as shownin Figs. 4 and-6.

A major coin L descending through the center chute 99 will be required to move to the left, as

counter I99 will then ensue in the manner hereinbefore described.

The purpose served by the mechanism just described is that of a controlled release for major coinsv introduced successively into the machine, whereby each coin freshly entering is prevented from traveling immediately to its final position of rest until after the preceding coin has been released for gravity discharge into the money box. A spring I99 attached to the disc I19 and at its opposite end to an anchor I95 on the bearing plate F provides a means for automatically returning the release-trip disc to its initial position after each succeeding major coin ha com pleted its passage through the machine. Each time a coin passes through the controlled release, the pinion I82 is oscillated a predetermined distance to operate the counter I94 which thereupon registers the passage of the major coin.

, During operation of the mechanism ust described the major coin engages with the finger 91 to hold the coin gauge 95 in a fully inwardly swung position (see Fig. 20) while the coin car- I rier G is rotated. The coin diameter is such that it will remain protruded slightly from the carrier so as to ride in the arcuate track 89. .The outwardly extended finger 99 of the coin gauge remains positioned at a point inwardly of a head I99 of a dog I91 (see Fig. 21) which is pivotally 4- supported at I93 upon one end of an angle arm I99 that is mounted upon the pivot I89 for rock- 'ing movement thereupon. This dog is biased by a coiled spring I99 connected thereto and to the anchor. I95 so that it normally engages a sto pin 299, under which condition the dog head I99 is positioned out of the path of the finger 99. Since the major coinassures that there will be no e gagement of the finger 99 with the dog head I99, the latter undergoes no movement during this operation. But, as already described, the finger 99 does engage with the lug I49 during this movement, thereby rotating the time control plate I I and indicator ratchet wheel H9 to initiate operation of the timing mechanism.

Now, the minor, co n opemtion.-When a minor coin S is pushed to its limit within the receiving slot 55 of the coin carrier, it will occupy the fully-inserted position shown in Fig. 22. Here it'will be noted the coin gauge 95 has initially been swung inwardly to its limit so as to position its finger 91 near the inner end of the arcuate slot 98. At this point the carrier starts its clockwise rotation, but since there is then no further pressure directed inwardly on the coin the latter, in responseto pressure of the spring H2 exerted through the coin gauge 95, will be moved very V .slightly outwardly from the receiving slot 55 to ride within the arcuatetrack 99 (see Fig. ,23). The minor coin diameter, however, is such that it permits outward swinging movement of the coin gauge 95, to a point where its finger 99 lies opp site the head I99 of the dog I91 at theconclusion of clockwise rotation of the carrier (see Fig. 24). The result is an engagement of the head I99, producing'a tilting of the dog head I91 and also a rocking movement of its supporting angle arm I98 against the tension of the spring I99,

The angle arm lower end carries a stop pin 292 whose distance from the abutment I99 is increased when the angle arm is rockedrin response to engagement of the dog head I99 by the finger 99 (see Fig. 10). At such times only is the clearance between the stop pin 292 and the abutment I99 sufiicient for a minor coin to pass thereb tween. Normally a minor coin will be held at this point (see Fig. 9), awaiting passage of a succeeding minor coin to operate the coin gauge to the requisite position for trippin the angle arm I98.

When the dog I91 is rocked, a pawl 295 at ne end thereof is raised into engagement with the proximate one of five ratchet teeth 299 on the periphery of the indicator ratchet wheel II9. A short rotary movement of predetermined distance is thereby imparted to the ratchet wheel as the result of operationof the coin carrier with a minor coin contained therein. This short rotary movement of the ratchet wheel takes placejust before the coin carrier completes its clockwise movement. The result is theindicator finger I21 is swung across the dial to the 12-minute position, or whatever point on the dial is reachedi response to this movement which originates with rocking ofthe angle arm I99. From this position of advance the indicator finger starts its return movement under the impetus of the secondary spring I39, subject to the restraint imposed by the brake mechanism within the housin I9 I. f

at about the same time another minor coin be inserted into the machine, the ratchet wheel II9 will be further rotated through another like disstance in response to engagement of the pawl 295 with its next adjacent ratchet tooth 299. The second operation following close upon thefirst has the effect of moving the indicator finger I21 further across the dial through an additional distance corresponding to 12 minutes, i. e. to the 24- minute position. For an operating cycle of one hour, I provide five ratchet teeth 299 adapted to be successively engaged by the pawl 295 in response to deposit of five minor coins one closely upon another. Since each coin will cause th indicator finger I21 to advance a distance of 12 minutes across the dial, the result is a total advance of one hour when five :such coins arcinserted in close succession. Beyond the fifth ratchet tooth 299 there is an elongated peripheral notch 291 within which the pawl 295 may freely move. Accordingly, if more than five minor coins be introduced into the machine in succession, the extreme advanced position of the indicator finger I21 will be 60 minutes since no motion can be transmitted to it beyond that point. By this means injur to thep rts is avoided in case anyone chooses to deposit coins in excess of .the number required for advance of the indicator finger to its limit position.

Whenever a minor coin S falls through the center chute 99,. it will strike a major coin L already lodged to the left and held in the position indicated in Fig. 4. Such a striking of one coin with the other will deflect the minor coin S to the right so as to operate the counter in the manner already described. Should the machine be entirely clear of coins, then if a minor coin be introduced it may pass to either right or of the counter I184.

where it is halted taking :place as an incident to the next succeeding operationof the machine.

When a major coin 'Lpasses through the .center -S of minor denomination passes through. 'The counter is accordingly operated through the requisite distance according to the denomination of the actuating'coin whereby to register properly the value of the coin so passing through the machine, Operation with a minor-coin S is effective to rock the angle arm -l98;only very slightly, yet enough to cause it to engage a pin 204 whereby to oscillate the disc H9 counter-- clockwise to produce a correspondin movement This same movement also retracts the stop pin 262 from the abutment a suflicient distance to release the minor coin restrained thereby for discharge from the chute; this movement is not enough, however, to release a coin L of major denomination that may then be resting on'the finger 192.

Should an eiiort be made to operate the machine without a coin, as by inserting a tool through the slit 34 to press the primary power arm 59 inwardly, nothing will come of such an attempt. While the power mechanism may be set in motion without a coin in the carrier G, the coin gauge 65 cannot,-in the absence of a coin within the carrier, be held in an efiective inward position, consequently its finger 69 will pass idly below the dog head 19%; into the slot therebelow (see Fig. and accomplish nothing,

General observations One of the outstanding features of this invention consists, basically, in the employment of a primary power spring which i energized manually and thereafter caused to utilize its energy to operate the coin carrier and to set the timing mechanism. This feature makes it possible and practicable to devise a parking meter which requires no periodic winding and yet involves only a single manual operation, namely, the insertion of a coin in the coin entry slit.

A related feature of novelty consists in the combination of primary and secondary springs, the former of which is energized manually and then serves to energize the secondary spring which drives the timing mechanism.

Another novel feature is the arrangement which precludes settingof the timing mechanism in'the absence of a proper coin within the coin carrier. While the power mechanism might be energized to rotate the-coin carrier without using a proper coin, as by employment of a thin-blade instrument, any such operation is ineffective to set the meter because the coin gauge must be appropriately positioned during rotation of the coin carrier in order to effect a driving interengagement between the coin carrier and the timing mechanism.

Still another important feature is the special arrangement which enables the meter to be operated with coins of two diilerent denominations and which provides for operating .the counter proportionately to-the value of each coin.

These various features of improvementmay be embodied in a parking meter as exemplified by the construction herein shown and described, but which is manifestly susceptible of modification in various ways and to .a considerable extent, asset forth and defined by the claims following.

.I claim:

1. A parking meter having, in combination, an

indicator finger mounted for movement between first andsecond positions, a spring for urging the indicator finger toward the first position, a coin carrier mounted for movement through a fixed path, an operative connection between the coin carrier and the indicator finger such that the former can move the latter toward the second position, means for disestablishing the operative connection between the coin carrier and the indicator finger when movement of the former has proceeded to a predetermined point whereby the indicator finger is then free to move back toward the first position, a coin-operated motion-transmitting means mounted for movement through a fixed path adapted to establish a releasible operative connection with the coin carrier, a power-spring actin upon the motion-transmitting means to advance the coin carrier along its path, and with it the indicator finger counter to the tension of its own spring, and means for disestablishing the operative connection between the motion-transmitting means and the coin carrier when the latter has advanced to a predetermined point whereby to free the coin carrier for movement to a position where its operative connection with the indicator finger may "be-reestablished.

'2. A parking meter according to claim 1 in which the indicatcr finger is mounted upon a pivotal support for two-way movement, in which the coin carrier is mounted upon a pivotal'support for two-way movement, and in which the motiontransmitting means is mounted upon a pivotal support for two-way movement.

3. A parking meter according to claim 1 in which the "motion transmitting means includes a pivoted arm and a self-operating latch carried by the pivoted arm for engagement with the coin carrier to establish therewith a releasible operative connection.

4. A parking meter according to claim 1 in which the motion-transmitting means include a finger extended into the movement path of a coin partly entered into the coin carrier.

5. A parking meter according to claim 1 in which the motion-transmitting means includes a finger extended into the movement path of a coin partly entered into the coin carrier, and 'inwhich the coin carrier is provided with an angular slot opening out at spaced points peripherally of the carrier for receiving the finge at one opening when the carrier is in one position and for then releasing the finger at the other opening'when the carrier is in a second position.

6. A parking meter according to claim 1 in which the operative connection between the coin carrier and the indicator finger includes movable means mounted on the coin carrier and displaceableby .a coin when inserted therein.

.7. A parking meter according to claim 1 in which there is provided a fly wheel train, and an operative connection between the coin carrier and the fly wheel train. 7

8. A parking meter according .to claim 1 in which there is provided a fly wheel train, and a lost motion operative connection between the coin carrier and the fly wheel train.

.9. The combination .in a parking meter, of a coin carrier havinga normal position in which it is operative to receive .a coin, means biasing the coin carrier toward its normal position, the coin carrier being movable to an alternateposition wherein it is operative to discharge the coin,.driving .mechanism including a driving spring, the driving mechanism being normally disengaged from the coin carrier, coin-controlled means operable through manually applied force to energize the driving spring and to drivably couple said mechanism to the coin carrier so that the energy stored in the driving spring by the manually applied force is effective thereafter to move the coin carrier from its normal to its alternate position, said coin-controlled means being operable to deliver a coin to the coin carrier, a timing mechanism settable to afford a parking period of predetermined duration in response to movement of the coin carrier from normal to alternate position, and coupling means for drivably interconnecting the coin carrier with the timing mechanism to effect setting of the latter, the coupling means being normally conditioned so that it i ineffective to establish a driving interconnection between the coin carrier and the timin mechanism, but adapted to be rendered effective so to do by delivery of a coin of predetermined size to the coin carrier.

10. The combination in a parking meter, of a coin carrier having a normal'position in which it is operative to receive a coin, means biasing the coin carrier toward its normal position, the coin carrier being movable to an alternate position wherein it is operative to discharge the coin, driving mechanism including a fulcrumed arm and a driving spring, the arm being normally retracted by the spring and rotatable about its fulcrum against the retractive force of thespring to a position wherein it is drivably engageable with the coin carrier so that upon subsequent retraction of the arm by the spring the coin carrier is propelled by the arm from normal to alternate position, coin-controlled means operable through manually applied force to rotate the arm about its fulcrum to effect engagement thereof with the carrier and simultaneously to stress the spring, said coin-controlled means being operable to deliver a coin to the coin carrier, a timing mecha nism settable to afford a parking period of predetermined duration in response to movement of the coin carrier from normal to alternate position, and coupling means for drivably interconnecting the coin carrier with the timing mechanism to effect setting of the latter, the coupling means being normally conditioned so that it is ineffective to establish a driving interconnection between the coin carrier and the timing mechanism, but adapted to be rendered effective so to do by delivery of a coin of predetermined size to the coin carrier.

11. The combination in a parking meter of a rotary coin carrier having a normal rotative position wherein it is operative to receive a coin, means biasing the coin carrier toward its normal rotative position, the coin carrier being rotatable to an alternate rotative position wherein it is operative to discharge the coin, a power mechanism including a fulcrumed arm and a primary 7 power spring, the arm being normally retracted by the spring and rotatable about its fulcrum against the retractiveforce of the spring to a position wherein it is drivably engageable with the coin carrier so that upon subsequent retraction of the arm by the spring the coin carrier is rotated by the arm from normal to alternate position, means operative to disengage the coin carrier from the arm upon completion of each rotary movement of the carrier from normal to alternate position whereby the coin carrier is enabled to return to its normal rotative position, coin-controlled means operable through manually, applied force to rotate the arm about its fulcrum, away from its normal position to effect driving engagement thereof with the coin carrier and simultaneously to stress the spring, said coin-controlled means being operable to deliver a coin to the coin carrier, a timing mechanism settable to afford a parking period of predetermined duration in response to rotary movement of the coin carrier from normal to alternate position, the timing mechanism including a driving spring, and coupling means for drivably interconnecting the coin carrier with the timing mechanism to effect setting of the latter and at the same time to energize the driving spring, the coupling means being normally so conditioned that it is ineffective to establish a driving interconnection between the coin carrier, and the timing mechanism, but adapted to be rendered effective so to do by delivery of a coin of predetermined size to the coin carrier.

12. The combination in a parking meter of a coin carrier having a normal position in which it is operative to receive a coin, means biasing the coin carrier toward its normal position, structure defining a coin-receiving slit through which a coin of predetermined size is passable into the coin carrier, the coin carrier being movable from its normal position to an alternate position wherein it is operative to discharge the coin, driving mechanism including a driving spring, the driving mechanism being normally disengaged from the coin carrier, means operable by manual force applied thereto through the medium of a coin passing through the coin slit to energize the driving spring and to drivably couple the driving mechanism to the coin carrier so that the energy stored in the spring by the manually applied force is effective to move the coin carrier from its normal to its alternate position, a timing.

mechanism settable to afford a parking period of predetermined duration in response to movement of the coin carrier from normal to alternate position, and coupling means for drivably inter.- connecting the coin carrier with the timing mechanism to effect setting of the latter, the coupling means being normally conditioned so that it is ineffective to establish a driving interconnection between the coin carrier and the timing mechanism, but adapted to be rendered effective so to do by a coin of predetermined size within the coin carrier.

13. The combination in a parking meter of a rotary coin carrier having a normal rotative position wherein it is adapted to receive a coin and an alternate rotative position wherein it is operative to discharge the coin, driving mechanism including a driving spring connected to the coin carrier to rotate the same, coin-receiving means movable inwardly and outwardly and operable directly by the fingers of the operator, meansfor transmitting the force supplied manually to the coin-receiving means to the driving spring to en.- ergize the driving spring whereby to cause the driving mechanism to rotate the coin carrier away from its normal rotative position, timing mechanism including an actuating spring, the

timing mechanism being settable in response to; rotation of the coin carrier to afford a parking period of predetermined duration, the actuating and the timing mechanism, but adapted to be 1 a easgeeo' W 192' rendered-.efiective so to do'by a coinsof predetermined-size within the coin carrier.

14. Thecombination-in-a parking meter of a rotary coin carrier having a normalrotative posir.

tion wherein it is adapted to receive a coin .and-

anzalternaterrotative position wherein it is operative: to discharge the coin-,. structure defining =a coin-receiving:- opening in registration with :the

coin carrier. when the latter is .inits normal posie tion an' element disposedin the path'of coins enteringthe coin carrier through said opening: andadapted to be moved by each incoming coin in response to manual force applied. to the coin,

driving mechanism:-. including a driving spring connected to the-coin. carrier to rotate the same,

the spring:being-energizable in response to .each coin-actuated-movement of the element andeffective when so energized to cause-.the'drivingmechanism-torotate the coin carrier away from its. normal rotative position, timing mechanism including anactuating spring, the timing -mech anism-vbeing settablein response torotation of the coin carrier toraiiorda vparking period of. pre determined duration, theactuatinmspring being energizablehin response to the same rotationrof coupling means being normally conditioned.-..so-

that it isineffective to establish a drivinginterw connection=between the .coin carrier and the time ingmechanism, but adapted to-berendered effece these to do by. acoinof predeterminedisizewith-- in. the ,coincarrier.

15.. The combination in,.a.parking,meter o.a.. coincarrierhaving an. axis of .rotation-,:the coin.

carrierlhaving a normalrotative positionwh'erein it is adapted to receivea coin and an alternate rotative position wherein. it is adaptedto dis= charge the coin, the coin carrier beingjrotationally biased toward'its normal rotative position, a

powerrarm. coaxial with andadjacent the'coin' carrier, a power spring rotationally biasing'the power arm.toward a normal. rotative position, latch meansifor releasably coupling "the: power. arm/to the coin carrier to efiect rotationof the the coincarrier, and coupling means-fordrivably 1 interconnecting the coin. carrier with the timing mechanismlto .eiiect setting.- of. the: latter, the

carrier from its normal frotatiiveposition to its alternate. rotative position, means operative to.

de-actuate the latch means upon the carrier reaching its alternate rotative position, the power arm" and. carrier being, normally. uncoupled,

manually operable means effective torotate'the.

power arm. through a predetermined dis'tance awaygfrom its normal. rotative position therebystressing the power spring,,the latch means being.

operative in response to such rotation of the power arm to couple the coincarrier to the power arm, the arrangement being. suchthat the coin carrier is rotatedfrom normal .to alternate rota.-. tiveposition in. response-to a retractiverotation of the power armunder the impetus of the power spring," a timingmechanism including. a rotary,

member co-axial with the coin carrier and rotatable independent-1y thereof; an. actuating spring for the timing mechanism biasing the rotary, member toward a 'zero position, and "eficoir'r gauge pivotally mounted 'on and carriedby the coin" carrier, the coin gauge having a portion project ing from the coin carrier and operative under a certain condition hereinafter specified-to functionas 'acoupling medium between'the coincar-' rieriand the rotary" member during rotation of thecoin carrier away from its'normal'rotative position-the coinga'u'ge being rotationally spring biased1toward' a rotative pcsitiorr'whereinsaiclportion is ineffective aszia coupling m i coingauge-being rotatable'in responseto insertion: of a coin of predetermined. diameter into the ,coin. carrier to a rotative position. wherein said portionis effective as a coupling medium, the arrangement beingsuch that the actuating spring is energized. lay-rotation of. therotary member away vfrom zero position and thus conditioned to retract the-rotaryimember, and a governorior regulating the rate-10f retraction of the rotarymember.

16. The combination in a-parking meter, of a rotary coin carrier having anormal rotative position .whereinitis operative toreceive a coin and an alternaterotative position wherein it is operative: to. discharge. the coin, means biasing the carrier.. towards its.-. normal rotative position, a. manuallyrotatablearm, a lpower spring biasing.

the. arm towardanormal rotative.position,.latch means operative tointercouple thearmand .car- ,rier whenever the arm is rotated through apree. determined .distanceaway from .its .normal. position,.: thepowerspring ,being. operative .to retract the. arm .anduthus .rotatethe carrier-from its normal rotative position. to .its alternate-rotative.

position. means. operative to release lthercarrie'r fromrthe arm-upon rotation, of the carrier to its alternate. rotative position, .and timingx mechanism settable when a coin is introduced into the carrier to afiordda parkingperiod of predetermined duration in response to rotation of the carrier.

17. The combination ina parking meter of a.

rotary coin carrier h'avinganormal rotative position wherein it'isoperative .to j receive a coin and-an alternate rotative position wherein it is operative to discharge the coin spring means biasing. the. carrier. toward'its normal rotative position, a. secondary power arm co-axial with the; carrier" and rotatableabout. its axis.independently of the carrierga power spring biasing.

the arm. toward a normal position, .a latch car-1 ried'by-the arm andoperative to releasably intercouplethe arm to the "carrier'whenever thearm.

that movement of the primary power arm in response to a coin *of" predetermined diameter passed through the slit into;the carrier'is effective to cause-a 'sufficient-rotationof the secondary power arm to bring about intercouplingbetween the secondary power-arm and the carrier, and

timing mechanism including an'actuating spring, the timing mechanism-- being settable-when a coin is'introduced into the-carrier to afford a parking period" of i predetermined duration in' response to a rotation of thecarrier from normal to alternate-position; the actuating spring beingenergizable in response to each setting operation of the timing 'mechanism.

18; The combination in a coin-controlled mechanism; of a rotatable coin carrier having a normal rotative position wherein it'is operative to receive major and minorcoins, one at a time, coin-receiving means directly engaged by the fingers of the i operator and movable by' manual pressure;thereagainstupon insertion of a: coin to deliver a coin to the coin carrier, means connecting the coin-receiving means to the coin carrier to rotate the carrier from its normal rotative position to an alternate rotative position wherein the coin is emitted from the carrier, a coin gauge carried by the carrier and positioned for engagement by a coin upon insertion of the coin into the carrier, said coin gauge having a normal position toward which it is spring-biased and from which it is displaceable by the inserted coin to a degree proportional to the diameter of the coin, said spring-biased coin gauge being operative to eject a coin from the carrier when the carrier is in its alternate position, a rotatable driven member co-axial with the coin carrier, and coupling means including the coin gauge for drivably coupling the driven'member to the carrier whereby to rotate the driven member, the coupling means being inefiective when the coin gauge is in its normal rotative position, but effective when the coin gauge is displaced by a major coin to bring about rotation of the driven member through a predetermined major distance, and additional coupling means including the coin gauge for drivably coupling the driven member to the carrier whereby to rotate the driven member, said additional coupling means being inefiective when the coin gauge is in its normal rotative position, but effective when the coin gauge is displaced by a minor coin to bring about rotation of the driven member through a predetermined minor distance which is a fractional part of the aforementioned major distance.

19. The combination in a parking meter, of a time-indicating scale, an indicator movable relative to said scale to indicate the passage of time, a first spring for moving said indicator in one direction along said scale, a second spring stronger than the first spring and operative by power stored therein, when energized, to move said indicator in the opposite direction along said scale, thereby energizing said first spring, manually operable coin-receiving means movable inwardly and outwardly and directly actuated by the fingers of the operator, and means positioned to be engaged by a coin inserted in the coin-receiving means-for connecting the coin-receiving means to the second spring and adapted upon movement otmthe coin-receiving means in response to manual pressure to energize said second spring when a coin is inserted in said coinreceiving means.

20. The combination in a parking meter, of a rotary coin carrier having a normal rotative position wherein it is operative to receive a coin and an alternate rotative position wherein it is operative to discharge the coin, means biasing the carrier toward its normal rotative position, a manually rotatable member, a power spring bias ing the member toward a normal rotative position, latch means operative to intercouple the member and carrier whenever the member is rotated through a predetermined distance away from its normal position, the power spring being operative to retract the member and thus rotate the carrier from its normal rotative position to its alternate rotative position, means operative to release the carrier from the member upon rotation of the carrier to its alternate rotative position, and timing mechanism settable when a coin is introduced into the carrier to afford a parking period of predetermined duration in response to rotation of the carrier.

ROBERT F. BROUSSARD.

REFERENCES CITED The following references are of record in the file of this patent:

UNITED STATES PATENTS Number Name Date Re. 21,451 Woodward May 14, 1940 1,055,138 Collins Mar. 4, 1913 2,039,544 Magee May 5, 1936 2,070,445 Miller et a1. Feb. 9, 1937 2,228,396 Martin Jan. 14, 1941 2,262,783 Toce et a1. Nov. 18, 1941 2,263,738 Moos Nov. 25, 1941 2,281,514 Rhodes Apr. 28, 1942 2,311,242 Michaels Feb. 16, 1943 2,340,441 Toce et a1 Feb. 1, 1944 2,340,442 Toce et a1. Feb. 1, 1944 2,359,754 Fink Oct. 10, 1944 2,416,213 Partin Feb. 18, 1947 2,429,478 Michaels Oct. 21, 1947 2,430,583 Rhodes Nov. 11, 1947 FOREIGN PATENTS Number Country Date 550,395 Great Britain Jan. 6, 1943 550,789 Great Britain Jan. 25, 1943 558,488 Great Britain Jan. 7, 1944 

